Active multicompartmental pressure redistribution system

Abstract

An interconnected multicompartmental pressure redistribution system that is able to precisely identify contact pressure points and address excess pressure on the body by redistributing the pressure in real time. Sensors that are part of a matrix of fluid substance-filled interactive pixels communicate with a microcontroller that may also be in wireless communication with a smart device. The microcontroller controls the individual fluid flow regulators located between the interactive pixels. This causes specific flow regulators to open, allowing the fluid substance to flow from one interactive pixel to another, redistributing pressure, as needed.

Description

CROSS REFERENCE TO RELATED APPLICATIONS[0001]This application claims the benefit of provisional application No. 62 / 033,472 filed Aug. 5, 2014 for Intelligent Multicompartmental Pressure Redistribution System. The entire application is incorporated herein by reference.BACKGROUND OF THE INVENTION[0002]1. Field of the Invention[0003]The present invention relates to a pressure redistribution system, and more specifically to an active intelligent pressure redistribution system for use in connection with a human body, for example.[0004]2. Description of Related Art[0005]Human bodies are constructed to withstand and distribute force, preventing the damage that excessive pressure can cause. However, there is no doubt that excessive pressure with resultant damage does occur, particularly when an individual is unable to move freely, incapable of sensing pressure sufficiently, or just forced to ignore appropriate pain signals. The results can include pressure ulcers in those who are bed-ridden...

AI Technical Summary

Benefits of technology

[0021]The current invention is able to precisely identify contact points and reduce excessive pressure by redistributing it in real time according to algorithms that synthesize gathered data with biochemical principles. A combination of hardware, including a dynamic pressure system, sensors and software that includes dynamic and static algorithms provides the immeasurable benefits of the invention.

[0022]A preferred embodiment of the invention uses a set of two Active Multicompartmental Pressure Redistribution System (AMPRS) (shoes, soles or inserts) that communicate with each other. Each sole is constructed from interactive pixels (fluid containing vessels), which are interconnected, each pixel being in contact with various sensors. The number and size of interactive pixels can vary depending on the application. In the case of mattresses, furniture, and wheelchairs, AMPRS units can be paired by having more than one in the same device or having the settings from one mattress (e.g. home) wirelessly communicated to another (e.g. hotel), again for the ultimate comfort of the user. Each interactive pixel is equipped with multiple flow regulators connecting the containment vessels or pixels at different locations. Adjacent interactive pixels are interconnected. A microcontroller receives appropriate input from the sensors that are part of the interactive pixels. It responds, using specific software to energize the flow regulators. This allows a fluid substance, such as a gas, liquid or gel, to be able to move from one containment vessel to another, thus relieving pressure in one specific area of the interactive pixels, and redistributing to other adjacent pixels. Moreover, the microcontrollers in the left AMPRS unit is able to communicate with the microcontrollers in the right and vice versa.

[0023]This system of the present invention will detect and precisely address excess pressures by actively redistributing forces in real time. Furthermore, it has the ability to learn about users. Besides making precise, real time and continuous adjustments based on input, it will be able to create a range of user-specific set points. The use of the invention in shoes, for example, will decrease both abnormal stress on normal feet and normal stress on abnormal feet structures.”

Problems solved by technology

However, there is no doubt that excessive pressure with resultant damage does occur, particularly when an individual is unable to move freely, incapable of sensing pressure sufficiently, or just forced to ignore appropriate pain signals.

The results can include pressure ulcers in those who are bed-ridden or wheelchair bound, foot ulcers in those with peripheral neuropathy due to chemotherapy or diabetes, and all kinds of foot, leg and back problems in those who wear shoes.

For example, forces created by simply standing (static) or walking (kinetic) give rise to large amounts of stress, which can cause tremendous damage, not just to the feet, but also to the ankles, legs, hips and even back.

These locations and the number of these points of pressure are not static or predictable.

Moreover, the weight of a person, or the type of shoe being worn will also impact the amount of pressure experienced, at various pressure points.

As is apparent from the large numbers of foot surgeries, orthotic devices, and patients visiting podiatric and orthopedic surgeons, this weight distribution may not be the norm.

All this may lead to increased foot-related problems.

However, none of these devices gather information to specifically and precisely adjust interconnected vessels to compensate for excess pressures in real time.

When sensors are used, they can only collect certain types of data that may help to identify a problem.

These materials inevitably eventually deform, losing even their limited efficacy.

In the case of shoes, such cushioning locks the foot in certain positions and effectively limits the range of motion.

The extra force being applied from routine military exercises leads to a stress fracture rate of approximately 13-40%.

First, ensuing neuropathy results in patients not having the sensory ability to know when standing in a particular position or walking in a particular way is causing pain, blisters, or other skin breakdown.

When injury occurs, the diminished vascularization of the lower limbs and the impaired immune system of a diabetic person results in healing delays, if healing occurs at all.

This peripheral neuropathy is also a common side effect of chemotherapy, sometimes even making it difficult for patients to balance and walk.

The Puma shoe does not have sensors and does not adjust in response to the needs of the foot.

In conclusion, there are pressure redistribution devices that contain a battery, sensors, containment vessels, and even microcontrollers with preset points, but none provide an intelligent dynamic system that is capable of precisely redistributing pressure in real time.

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